DocumentCode :
941258
Title :
Frequency response measurements for mirror image asymmetric multiple quantum-well lasers
Author :
Vandermeer, Aaron D. ; Cassidy, Daniel T.
Author_Institution :
Dept. of Eng. Phys., McMaster Univ., Hamilton, Ont., Canada
Volume :
41
Issue :
7
fYear :
2005
fDate :
7/1/2005 12:00:00 AM
Firstpage :
932
Lastpage :
936
Abstract :
A comparison of measurements of the frequency response characteristics of mirror image asymmetric multiple quantum-well (AMQW) lasers is presented in this paper. Conclusions on the carrier transport were drawn from these measurements, which are significant for the design of both AMQW and standard devices. The effective resonance frequency trend with current derived from these measurements shows no significant difference for several mirror image structures. It is thought that this is because of a very fast inter-well transport time in these devices. There was also no significant difference in the temperature dependence of the effective resonance frequency for these mirror image structures. This indicates that temperature-dependent transport mechanisms such as carrier capture and escape have little effect on the resonance frequency of these structures. These trends provide support for an analytic equation for the resonance frequency of AMQW structures that is independent of well position and carrier transport times. These results are important for designing AMQW lasers for high-speed applications.
Keywords :
frequency response; laser cavity resonators; quantum well lasers; asymmetric quantum-well lasers; carrier capture; carrier transport; effective resonance frequency; frequency response measurements; high-speed applications; interwell transport; mirror image quantum-well lasers; multiple quantum-well lasers; quantum well position; temperature-dependent transport; Current measurement; Equations; Frequency measurement; Frequency response; Measurement standards; Mirrors; Quantum well lasers; Resonance; Resonant frequency; Temperature dependence; Frequency response; quantum-well (QW) lasers; resonance;
fLanguage :
English
Journal_Title :
Quantum Electronics, IEEE Journal of
Publisher :
ieee
ISSN :
0018-9197
Type :
jour
DOI :
10.1109/JQE.2005.848891
Filename :
1453715
Link To Document :
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